Project

Surface processing and structuring with vortex and vector light beams

Utilizing vortex and vector beams for micro- and nano-scale surface modification with high precision and control.

image not found

Project Overview

This project explores advanced surface processing techniques using vortex and vector light beams. These structured beams carry orbital angular momentum (OAM) and spatial polarization patterns, enabling precise control over energy deposition and material interaction at the micro and nano scale.

QuantLight’s approach leverages these beam profiles to achieve tailored surface textures, anisotropic etching, and functional patterning in metals, semiconductors, and dielectrics—ideal for photonic devices, sensors, and biointerfaces.

Challenges & Constraints

Generating stable vortex and vector beams requires precise phase and polarization control. Maintaining beam integrity during high-power processing and ensuring uniform structuring across complex surfaces are key constraints. Material response to OAM-driven interaction also varies significantly.

icon not found

OAM Beam Engineering

Vortex beams designed with tunable topological charge for spiral ablation and rotational energy transfer.

icon not found

Vector Beam Structuring

Spatially varying polarization enables anisotropic etching and directional surface modification.

icon not found

Functional Surface Design

Enables fabrication of textured surfaces for wettability control, optical response, and biosensing.

Project Solution

QuantLight developed a beam shaping platform combining spatial light modulators and polarization converters to generate vortex and vector beams. Integrated with precision scanning and feedback systems, the solution enables programmable surface processing with sub-micron accuracy.

Final Result

The final system delivers high-resolution surface structuring with tailored optical, mechanical, and chemical properties. QuantLight’s technology is now used in photonic chip fabrication, biomedical coatings, and advanced sensor platforms.